Abstract:
The present invention provides compositions and methods for alleviating physical discomfort and/or pain-related conditions in a subject, comprising one or more ingredients that improve blood circulation, one or more ingredients that reduce pain and one or more ingredients that enhance bone health. The ingredients are selected from synthetic compounds, natural products, natural ingredients, extracts from natural ingredients, or combinations thereof. The compositions of the invention are particularly useful in alleviating musculoskeletal pain and nerve related pain.
Abstract:
A vehicle information system includes: a vehicle-mounted device, a voice service system and a service center which is adapted for providing service data. A first service channel system is configured between the voice service system and the vehicle-mounted device, and adapted for transmitting voice data. A second service channel is configured between the voice service system and the service center, and adapted for transmitting configuration data which is adapted for configuring the service data that are provided for the vehicle-mounted device. And the second service channel is established on basis of connection to internet. A third service channel system is configured between the service center and the vehicle-mounted device. A complete solution for providing real-time information service may be provided by the vehicle information system, thereby improving the quality of user experience while using a vehicle.
Abstract:
A vehicle information system includes: a vehicle-mounted device, a network processing device and a service center which is adapted for providing service for the vehicle-mounted device. A service configuration channel is configured between the network processing device and the service center and is adapted for transmitting configuration data which are adapted for configuring service that is provided for the vehicle-mounted device. The service configuration channel is established on basis of connection to internet. A service channel system is configured between the vehicle-mounted device and the service center. A complete solution for providing information service may be provided by the vehicle information system, thereby improving the quality of user experience while using a vehicle.
Abstract:
The present invention provides a vehicle-mounted device, a method for activating the vehicle-mounted device, and a vehicle-mounted system. The vehicle-mounted system includes a vehicle-mounted device, a data center, and a service platform. The vehicle-mounted device not only can be locally activated according to an activating information corresponding to an identity information of the vehicle-mounted device which indicates an unique identity of the vehicle-mounted device, but also can be remotely activated through wireless communication. Moreover, the vehicle-mounted system further includes application sub-modules which can provide extended/added functions. Therefore, by the method for activating a vehicle-mounted device provided by the present invention, the vehicle-mounted device can be activated in time, so that the information resources can be more easily and conveniently obtained by the user.
Abstract:
The present invention provides a intelligent data center based on a service platform for vehicle-mounted devices, including: a static data storage unit, adapted for storing static data relating to a vehicle-mounted device; a static data processing unit, adapted for processing the static data stored in the static data storage unit; a dynamic data storage unit, adapted for storing dynamic data which are relating to the vehicle-mounted device and acquired by the service platform for vehicle-mounted devices; and a data analysis unit, adapted for analyzing the static data and the dynamic data. The intelligent data center can provide a wide variety of services for the vehicle-mounted device through the service platform.
Abstract:
A method for analyzing wavefront sensing images as an array of focus spots comprise obtaining a wavefront sensing image of an optical object such as an eye using a Hartmann-Shack wavefront sensor, determining at least one average distance between the neighboring focus spots in the wavefront images. The method for analyzing wavefront sensing images further includes calculating a sphero-cylindrical error, detecting the focus spots of the wavefront image automatically, calculating the wavefront slopes at an array of sampling locations, and reconstructing the wave aberration of the tested optical object from the measured wavefront slopes using a least-squares estimator. The least-squares estimator includes a modal wavefront reconstruction using Zernike polynomials with a Zernike order larger than 10 and less than or equal to the number of sampling points along one axis in the sampled area. The least-squares estimator also includes a mixed modal-zonal least-squares estimation by extracting a set of wavefront modes using a least-squares modal wavefront estimator, calculating the residual wavefront slopes at the sampling position of the wavefront sensor, reconstructing a residual wavefront using a least-squares zonal estimator, and obtaining the wave aberration of the tested optical object by combining the wavefront modes from the modal estimator and the reconstructed residual aberrations from the zonal estimator.